, AAS, Public Art Task Force (former chair), Calendar Commit- tee (former chair), Sustainability Committee, and the American Society of Engineering Education. She has also written and presented 19 scholarly papers on innovative pedagogy including improving student spatial reasoning, teaching sustainable construction methods, and service learning. Professor LoPiccolo was awarded the Phenomenal Woman for 2018 Award, Office of Student Activities and the Student Gov- ernment Association, Farmingdale State College, the Innovative Pedagogy Award, Center for Teaching, Learning and Technology, Farmingdale State College in 2017, the SUNY Chancellor’s Award for Teach- ing Excellence in 2018 and the American Institute of
Paper ID #35341”Making learning whole” with the use of pre-recorded videos for basicengineering coursesDr. Farrah Fayyaz, Concordia University Dr Farrah Fayyaz is a Lecturer in the Center for Engineering in Society in Gina Cody School of Engi- neering and Computer Science, Concordia University, Montreal, Canada. She got her PhD in Engineering Education from Purdue University. She holds Bachelors and Masters degrees in Electrical Engineering from University of Engineering and Technology, Lahore, Pakistan. She has taught Electrical Engineering related courses for almost twenty years now. Her area of research is
-teaches the Fundamen- tals of Engineering Design course that includes a wide spectra of activities to teach general engineering students the basics of engineering design using a hands-on approach which is also engaging and fun. He is an Institute for Teaching Excellence Fellow and the recipient of NJIT’s 2018 Saul K. Fenster Innovation in Engineering Education Award.Mr. Chizhong Wang, New Jersey Institute of Technology Chizhong Wang received the B.S. degree in Electrical Engineering from Harbin University of Science and Technology, Harbin, China, in 2013 and M.S. degree in Electrical Engineering from New Jersey Institute of Technology, Newark, NJ, US in 2015. He is currently a Ph. D. candidate in Electrical and
of undergraduate academiccourses, it is recommended that the existing courses implement the use of multiple systemthinking techniques to develop the core architecture-centric thinking skills which can be appliedto multiple domains. Organizations will continue the architecture-centric education throughdomain specific training, and the introduction of architecture development processes and tools.With these measures in place, organizations will be much better suited for the development of adiverse set of complex systems well into the future. Examples of the proposed approach asapplied to a defense system, and a humanitarian aid system will be used throughout this paper toemphasize the broad applicability.Complex Systems Drive a Need for Robust
engineering education,” Jun. 2015, doi: 10.14288/1.0064738.[8] R. Allen, Ed., Bulletproof Feathers: How Science Uses Nature’s Secrets to Design Cutting- Edge Technology, 1st Edition. Chicago: University Of Chicago Press, 2010.[9] M. Braungart, Cradle to Cradle: Remaking the Way We Make Things, 1st edition. New York: North Point Press, 2002.[10] M. P. Coughlan, “Mechanisms of cellulose degradation by fungi and bacteria,” Animal Feed Science and Technology, vol. 32, no. 1, pp. 77–100, Jan. 1991, doi: 10.1016/0377- 8401(91)90012-H.[11] A. L. Gotter, M. A. Kaetzel, and J. R. Dedman, “Electrophorus electricus as a Model System for the Study of Membrane Excitability,” Comparative Biochemistry and Physiology Part A: Molecular &
Paper ID #35302Quantum Computing at the Intersection of Engineering, Technology,Science, and Societal Need: Design of NGSS-aligned Quantum DrugDiscovery Lessons for Middle School StudentsDr. Amy Voss Farris, Pennsylvania State University Amy Voss Farris is currently an Assistant Professor of Science Education at the Pennsylvania State Uni- versity. She investigates the intersections of scientific modeling and computing in elementary and middle school classrooms and seeks to understand how learners’ and teachers’ experiences in scientific computing can support their development of ideas and practices across STEM disciplines
outreach project at Daniel Hale Elementary School which provides civil engineering lesson plans, afterschool pro- grams, family workshops and field trips. Prof. Villatoro is the Project Director for the Peer Advisement program sponsored by Perkins and designed to increase retention of females across the School of Tech- nology and Design.Laurin Moseley, CUNY New York City College of Technology American c Society for Engineering Education, 2021 Benefits of the virtual platform for K-12 STEM OutreachAbstractThe number of students enrolling and graduating with STEM degrees in the United States mustincrease exponentially in order to meet the predicted job
include developing sustainable cities by mitigating heat pollution and improving roadway infrastructure through advanced computational techniques.Prof. Jeffery R Roesler, University of Illinois at Urbana - Champaign University of Illinois Urbana-Champaign Professor, Civil and Environmental Engineering Associate Head and Director of Graduate Studies and Research American c Society for Engineering Education, 2021 Human-centered geometric design of roads using an autonomous vehicle problemAbstractGeometric design of roads is a key component of an undergraduate civil engineering curriculum.At the University of Illinois, geometric design
and industry. He was a Senior Lecturer at Anna- malai University, India, teaching civil engineering for about 10 years. He also worked in Linton Institute of Technology as a Senior Lecturer in Ipoh, Malaysia, for three years. American c Society for Engineering Education, 2021 Cutting-edge Tools & Technologies: Teaching Engineering Online AbstractUniversity and College instructors use a rich collection of methods of teaching in conventionalclassrooms to impart knowledge to students. Traditional classroom teaching includes lectures,PowerPoint presentations, class discussions, laboratory demonstrations, team projects
Education, 2021Public Interest Technology: Preparing the Next-Gen Engineer in Serving the Greater Good of the Public’s Interest-A Community College Effort Dimitrios Stroumbakis, PE Queensborough Community College Department of Engineering TechnologyAbstractThe purpose of this paper is to document the creation, implementation and preliminary assessment of aseries of mini-modules funded under the Public Interest Technology-University Network (PIT UN)initiative for two purposes: 1) to raise awareness among new engineering students thereby creating apathway to higher educational goals in his field---all to for the noble case of serving greater
control over their learning. The students are confronted with tasks to complete, a time deadline,teammates, and instructor who wander around asking questions.Most of the construction students are traditionally tactile learners. The hands-on approach in learningusually is the method of choice for the construction students. Engineering and technology courses alwayscontained learning-by-doing components. However, to maximize the student’s natural talents manyconstruction courses are taught as “active learning in a group environment.” The classes are typicallydivided into teams of three students. The teams are continuously involved in problem solving in theclassroom, supplemented by short lectures. The students use various assessment tools and
Education, 2021 Use of low-cost vector network analyzers in undergraduate RF and wireless circuit laboratoriesAbstractRadio frequency (RF), microwave and wireless courses at the undergraduate level are a naturalextension to the usual required course in electromagnetics because they show the tremendousnumber of applications in this field. Laboratories for reinforcing the RF and wireless conceptscovered in lecture are widely used, but frequently are done in the faculty member's researchlaboratory, using research-grade equipment. For example, students can reinforce theirunderstanding of matching networks, filters and amplifiers by fabricating these circuits usinglumped elements (inductors and capacitors) or
educational STEM activities. Thechallenge was to see if an engaging STEM program on electronic hardware could be deliveredremotely [1]. Most of the middle school students had little prior experience in bothprogramming and electronic components. The use of the Tinkercad Circuits simulator enabledthe instructors to introduce both aspects online to ease the transition to real hardware. TheTinkercad software includes a graphical programming interface to make developing anddebugging Arduino codes more accessible to students. However, the simulator is powerfulenough to allow participants to experiment with, create and debug worthwhile and innovativeprojects virtually.2. MethodologyThe goal of the project was to provide a fun experience for the students
some of itenforces norms and inequities that work against these ideals. So how do we pivot? How do weelevate these values within engineering education and the workplace, and what are new modes ofengagement, research, development and design that will help us get there?Building a Peace Engineering CurriculumThe Peace Engineering program at Drexel was developed in partnership with the U.S. Institute ofPeace (USIP) and its technology-based spinoff PeaceTech Lab (PTL) with a vision to educateprofessionals capable of identifying challenges and implementing solutions at the intersection ofpeacebuilding and engineering. Our goal is not only to integrate STEM students and researchersinto peacebuilding, but also to embed peacebuilding practices
inBoston, Massachusetts focused on improving global access to medical technology. Students inNU-IGH recently began a partnership with St. Paul’s Hospital Millennium Medical College(SPHMMC) in Addis Ababa, Ethiopia. The group identified a critical need for a surgical lampoptimized for the demands of SPHMMC. Design constraints would include low-cost andaccessible parts, ease of use and repair, and ability to operate continuously despite frequent,short-term electrical power outages.The students spent one and a half semesters designing and building just such a surgical lamp.They researched surgical lamp standards and the needs of low-resource hospitals in AddisAbaba. The project resulted in a functional surgical lamp that is approved for use at
and Capital Project Request Form thatcan be found on our Rowan University’s website. This approval would be needed before anyother steps could be taken. Once this plan has been approved by the university, the next big stepwould be to get funding for this project. An in depth description on how the funding will beobtained and the budget for this project can be found later in the report. With two of the biggest obstacles tackled, approval and budget, this plan becomes prettysimple. We have to determine the exact locations of where we want to put the plants, startingwith the educational buildings based on the budget allocated to each building. The firsteducational buildings we will focus on are those that are used the most by students. If
, Ensuring Ethical Engagement, and Impact through Collaboration with Global Partners,Approved, July 10, 2020.Weinstein, R. 2020. Personal Communications, Proposals and University Documents, Interim Dean of theCollege of Engineering, and Associate Vice Provost, Villanova University, Villanova, PA.Ermilio, J., Clayton, G., & Kabalan, M. 2014. Villanova Engineering Service Learning. InternationalJournal for Service Learning in Engineering. Special Edition, pp.334-353, Fall 2014. ISSN 1555-9033.Schmidt, K., Lee, R., Lorenz, W., Singh, P., & McGrail, M. 2015. Use of STEEP Framework as Basis forSustainable Engineering Education. The 7th International Conference on Engineering for SustainableDevelopment, Vancouver, Canada, June 9 to 12, 2015
guidance for Airworthiness education programs. Airworthiness Engineering Academic Curricula (NAS9945-1) Airworthiness Engineering Education & Training – Civil Aviation (NAS9945-2) Airworthiness Engineering Education & Training – Military / Defense (NAS9945-3) Airworthiness Engineering Education & Training – Emerging Technologies (NAS9945-4)By providing standard definitions and expectations of education curricula and professional levelsof Airworthiness Engineering related roles, Industry, academia, airlines, and government will allhave a foundation on which to build a stronger and more knowledgeable airworthinessworkforce.4.2 ASTM International StandardsASTM is a globally recognized standards
Global Engineering Education For? The Making of International Educators, Part I & II Synthesis Lectures on Global Engineering. 2010.22. Change, E.f. About Solutions Library. [cited 2020 November 12]; Available from: https://www.engineeringforchange.org/solutions/about-solutions-library/.23. Riley, D., Engineering and Social Justice. Synthesis Lectures on Engineers, Technology, and Society, 2008. 3(1): p. 1-152.24. Alexander, J.K., The Mantra of Efficiency: From Waterwheel to Social Control. 2008: JHU Press.25. Riley, D., Rigor/Us: Building Boundaries and Disciplining Diversity with Standards of Merit. Engineering Studies, 2017. 9(3): p. 249-265.26. Mitcham, C. and D. Muñoz, Humanitarian
Career Award from the University Council on Water Resources (2020) and the Villanova College of Engineering Excellence in Teaching Award (2021). American c Society for Engineering Education, 2021 Teaching with GIS: Developing a project-based framework to teach civil engineering using softwareAbstractGeographic information systems (GIS) technology is a platform for creating, managing,analyzing, and visualizing the data associated with developing and managing infrastructure.Faculty in the Department of Civil and Environmental Engineering at Villanova University havedeveloped a project-centric course focused on the application of GIS within
, quantum computing and digital testing for nanometer technologies. Dr. Ghosh served as Associate Editor of the IEEE Transactions On Computer-Aided Design (2019-) and IEEE Transactions On Circuits and Systems I (2014-2015) and as Senior Editorial Board member of IEEE Journal of Emerging Topics on Circuits and Systems (JETCAS) (2016-2018). He served as Guest Editor of the IEEE JETCAS (2015-2016) and IEEE Transactions On VLSI Systems (2018-2019). He has also served in the technical program committees of ACM/IEEE conferences such as, DAC, ICCAD, CICC, DATE, ISLPED, GLSVLSI, Nanoarch and ISQED. He served as Program Chair of ISQED (2019) and DAC Ph.D. Forum (2016) and track (co)-Chair of CICC (2017-2019), ISLPED (2017
number of different fields.Bioengineering: A large body of research on the incorporation of adaptive expertise inundergraduate curricula stems from the field of bioengineering. Much of this work derives fromresearchers connected to the the VaNTH Engineering Research Center for BioengineeringEducational Technologies, funded by NSF with the aim of “developing the educational resourcesto prepare for the future of bioengineering” (Linsenmeier 2002). The educational strategiespursued as part of this project were based on the “How People Learn” (HPL) framework(Bransford, 2000), which suggests that learning environments be: ● Student centered: use students’ current capabilities as a starting point for learning ● Knowledge centered: focus teaching
upkeep through open source. • Using a physics engine (e.g., Box2d) or build something custom. Should educators “recreate the wheel” instead of leveraging existing technology? • Drawing the line (so to speak) on when to distinguish real from fake. It’s possible engineering and game physics may need to keep separated due to the need for accuracy over fun.Refer back to Section 3.1. Pixelux and the FEA physics engine that showed incrediblepromise…and then died. The issue of an evergreen, cheap/free, and little-overhead environmentis non-trivial and itself a subject worthy of study.The remainder of this paper explores some current work and develops a roadmap for futureexploration if game physics were to become one of the
Paper ID #35239Applying interpretive knowledge based on anthropological methods toengineering designDr. Thomas E Ask P.E., Pennsylvania College of Technology Thomas Ask is a professor of industrial design at the Pennsylvania College of Technology, an affiliate of Penn State University. He served at a visiting professor of mechanical engineering at the Universiti Teknologi Malaysia during which time he pursued ethnographic research related to fishing boat design. American c Society for Engineering Education, 2021 Applying interpretive knowledge based on
Society for Engineering Education and President (2007) and Vice President (2005) of Engineering Management Honor Society (Epsilon Mu Eta). Abel has been published several times including chapters in the books Eshbach’s Handbook of Engineering Fundamentals and Engineering Economic Analysis by Newnan, et. al.; in jour- nals such as the Engineering Management Journal and the Journal of Engineering Education; and several conference proceedings. She has taught courses in Total Quality Management, Engineering Economics, Logistics and Supply Chain Management, Entrepreneurial Analysis of Engineering Design, Statistics for Engineering Managers, Management of Engineering and Technology, and Senior Design. Her research areas
currently the Interim Dean of Health Sciences at SUNYPOLY. Dr. Joseph has colloborated with Dr. Daniel Jones and other faculty from the College of Engineering and Computer Science and the College of Arts and Science to create Minor Concentrations in Humanitarian Engineering, Humanitarian Engineering Technology and Humanitarian Studies. The minors represent a multidisciplinary effort directed to improving the quality of life for individuals with disabilities. American c Society for Engineering Education, 2021 Multi-semester Projects to Improve Braille Instruction for Visual Impairments Daniel K. Jones, Associate
-Atlantic section as well as ASME and IEEE. American c Society for Engineering Education, 2021Virtual Service-Learning Tutoring Experience for EngineeringUndergraduatesAbstractIn the fall semester 2020 a service-learning option was provided to students enrolled in aprobability and statistics class that is required of all engineering majors. The instructor hadpreviously participated in service-learning seminars for faculty at the university who wereinterested in using that pedagogy in their classes. This paper reviews the seminar program, thebackground of the community partner, the nature of the service-learning experience and thequalitative reflections of the students who
teachers should learn and be able to do (1st ed., pp. 358–389). San Francisco, CA: Jossey-Bass.27. Sherin, M. G., & van Es, E.,A. (2005). Using video to support teachers' ability to notice classroom interactions. Journal of Technology and Teacher Education, 13(3), 475-491.28. Leinhardt, G. (1991). Where subject knowledge matters. Advances in research on teaching, 2, 83-113.29. Shulman, L. S. (1996). Just in case: Reflections on learning from experience. The case for education: Contemporary approaches for using case methods, (s 197), 217. (Ozcelik, 2016).30. Kelly and Green, editors (2019). Theory and Methods for Sociocultural Research in Science and Engineering Education. Routledge.31. Johnson, M.M. (2019). “Learning from
engineering sciences courses Introduction to Chemical Pro- cesses and Chemical Engineering Thermodynamics I, along with the elective courses Industrial Liquid and Solid Waste Treatment, and Catholic Social Teaching for Engineers. He is also currently a Visiting Professor in the Villanova Center for Peace and Justice Education. One of his ongoing research areas is the theoretical and applied aspects of traditional chemical engineer- ing separation processes that can be used in drinking water, industrial wastewater, and hazardous waste treatment, including applications such as: • the use of sustainable (non-chemical) additives derived shell- fish wastes for the removal by coagulation of nanoparticulate matter • the use of
, prototype development and fielddeployment projects. Other projects that have been performed in this domain have beenpresented at the IEEE’s Global Humanitarian Technology Conference, the flagship conferencefor presentation of research in humanitarian technologies.Conclusions:Like engineering students in other disciplines, ECE students would like to be engaged inhumanitarian projects where they can use their technical skills to impact communities in lowresource settings. This paper has described a particular project, the design of a wirelesscommunication network and solar energy system for schools in the Masaai Mara in Kenya. Thestudents were very motivated to work on this project and did an excellent job. The studentoutcomes 2 and 4, that include